Abstract
This article reflects on the markedly distinct development stages of an electronic wind instrument called the Birl. Stemming from an early idea for an electro-mechanical oscillator inspired by the sounds of pen plotters, the Birl was formed through the connection of that oscillator prototype to a rough wind instrument body. Originally intended to fulfill the role of the wind section in an ensemble of instruments built for the author’s doctoral dissertation composition, the instrument took on a new life after the completion of the piece. The development of a “cello-like” resonator body and refinements to the electro-mechanical aspects had brought the instrument to a performable state, but several limitations suggested further development. A desire to make the instrument more conducive to exploratory improvisation pushed the Birl in new directions, toward open-holed fingering systems and embouchure sensors with neural net mapping structures and physical models of dynamically configurable toneholes, resulting in an instrument that bore little resemblance to the original electro-mechanical concept. The author discusses the design challenges that arose as the instrument evolved, the solutions that were found along the way, and the ways in which user feedback informed the design as the needs of the instrument changed.
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Akai. http://www.akaipro.com/product/ewiusb. Accessed May 30, 2016.
Aldridge, H. (1996). Music’s most glorious voice: The Hammond organ. The Journal of American Culture, 19(3), 1.
AVR. http://www.atmel.com/products/microcontrollers/avr/32-bitavruc3.aspx. Accessed May 30, 2016.
Bang and Olufsen. http://www.bang-olufsen.com/en. Accessed May 30, 2016.
Collins, N. (2006). Handmade electronic music: The art of hardware hacking. Taylor & Francis.
Cypress. http://www.cypress.com/products/32-bit-arm-cortex-m-psoc. Accessed May 30, 2016.
Design Museum Denmark. http://designmuseum.dk/en. Accessed May 30, 2016.
Doty, D. (2002). The just intonation primer. San Francisco: Other Music.
Fiebrink, R. (2011) Real-time human interaction with supervised learning algorithms for music composition and performance (Doctoral dissertation from Princeton University).
Hillmer. https://vimeo.com/86461028. Accessed May 30, 2016.
Iglesia. 2009. https://vimeo.com/4611451. Accessed 30 May 2016.
Jensen. https://en.wikipedia.org/wiki/Jacob_Jensen. Accessed May 30, 2016.
Menzies, D., & McPherson, A. (2013). A digital bagpipe chanter system to assist in one-to-one piping tuition. In Proceedings of the 2013 Stockholm music acoustics conference/sound and music computing conference (SMAC/SMC).
Parker, J., & D’Angelo, S. (2013). A digital model of the Buchla lowpass-gate. In Proceedings of the 16th international conference on digital audio effects (DAFx-13) (pp. 278–285).
Plork. https://vimeo.com/album/3382506. Accessed May 30, 2016.
Sato, M., Poupyrev, I., & Harrison, C. (2012). Touché enhancing touch interaction on humans, screens, liquids, and everyday objects. In Proceedings of the SIGCHI conference on human factors in computing systems (pp. 483–492).
Scavone, G. (1997). An acoustic analysis of single-reed woodwind instruments with an emphasis on design and performance issues and digital waveguide modeling techniques (Doctoral dissertation from Stanford University).
Scavone, G. (1999). Modeling wind instrument sound radiation using digital waveguides. In Proceedings of the ICMC 1999 (pp. 355–358).
Scavone, G., & Cook, P. (1998). Real-time computer modeling of woodwind instruments. In Proceedings of the international symposium on musical acoustics (ISMA-98) (pp. 197–202).
Scavone, G., & Smith J. O. (1997). Digital waveguide modeling of woodwind toneholes. In Proceedings of the 1997 international computer music conference.
Scavone, G., & Van Walstijn, M. (2000). The wave digital tonehole model. In Proceedings of international computer music conference (ICMC-2000) (pp. 465–468).
Schnug. https://vimeo.com/86167177. Accessed May 30, 2016.
Snyder, J. (2011). Exploration of an adaptable just intonation system (Doctoral dissertation from Columbia University). http://www.scattershot.org/full-dissertation.pdf
Snyder, J., & Ryan, D. (2014). The birl: An electronic wind instrument based on an artificial neural network parameter mapping structure. In Proceedings of the new interfaces for musical expression (NIME2014) (pp. 585–588). http://www.nime.org/proceedings/2014/nime2014_540.pdf
Wetink. http://www.wetink.org/. Accessed May 30, 2016.
Yamaha. http://usa.yamaha.com/products/music-production/midi-controllers/wx5/. Accessed May 30, 2016.
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Snyder, J. (2017). The Birl: Adventures in the Development of an Electronic Wind Instrument. In: Bovermann, T., de Campo, A., Egermann, H., Hardjowirogo, SI., Weinzierl, S. (eds) Musical Instruments in the 21st Century. Springer, Singapore. https://doi.org/10.1007/978-981-10-2951-6_13
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DOI: https://doi.org/10.1007/978-981-10-2951-6_13
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